Export Steel Sheet Pile/U Steel Sheet Pile/ 400*125*13mm with Competitive Price 2015

Export Steel Sheet Pile/U Steel Sheet Pile/ 400*125*13mm with Competitive Price 2015 System 1

Export Steel Sheet Pile/U Steel Sheet Pile/ 400*125*13mm with Competitive Price 2015 System 2

Export Steel Sheet Pile/U Steel Sheet Pile/ 400*125*13mm with Competitive Price 2015 System 3

Export Steel Sheet Pile/U Steel Sheet Pile/ 40012513mm with Competitive Price 2015

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Loading Port:: China Main Port

Payment Terms:: TT or LC

Min Order Qty:: 200 Piece/Pieces m.t.

Supply Capability:: 10000 m.t./month

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Quick Details Steel Sheet Pile

Place of Origin: China (Mainland)
Model Number:SD400/125-13
Material: Steel
Product name: Steel Sheet Pile
Steel sheet pile type: U-type
Steel sheet pile material: SY295
Steel sheet pile width: 400mm
Steel sheet pile height: 125mm
Steel sheet pile thickness: 13mm
Steel sheet pile length: 6m or 12m
Steel sheet pile loading: container , 20 ft or 40GP
Steel sheet pile used: temporary earth-retaining,temporary cofferdam works
Steel sheet pile weight: 60kgs / m

Packaging & Delivery

Packaging Details:	packaging :by bulk . loading : container 20ft or 40GP
Delivery Detail:	stock ( more type has stock )

Specifications

Steel Sheet Pile 400*125*13mm
U Steel Sheet Pile
temporary earth-retaining/temporary cofferdam works/permanent structures

‍Export U Steel Sheet Pile 400*125*13mm

Product Description

Steel Sheet Pile Usage

emporary earth-retaining, temporary cofferdam works and permanent structures

Steel Sheet Pile Type : SD 400/125-13

Type	Size				Per piece			Per Meter of pile wall
	Width	Height	Thickness	weight	section area	section moment	section modulus	section area	section moment	section modulus	weight
	mm	mm	mm	kgs /m	cm²	cm⁴	cm3	cm²/m	cm4/m	Cm³/m	kg/m²
SD400/85-8	400	85	8	35.5	45.21	598	88	113	4500	529	88.80
SD400/100-10.5	400	100	10.5	48	61.18	1240	152	153	8740	874	120.10
SD400/125-13	400	125	13	60	76.42	2220	223	191	16800	1340	149.90
SD400/150-13.1	400	150	13.1	58.4	74.4	2790	250	186	22800	1520	146.00
SD400/170-15.5	400	170	15.5	76.1	96.99	4670	362	242.5	38600	2270	190.40

Export Steel Sheet Pile/U Steel Sheet Pile/ 400*125*13mm with Competitive Price 2015

Q: What are the environmental impacts of steel structure construction?: The environmental impacts of steel structure construction include the extraction of raw materials, such as iron ore and coal, which can contribute to habitat destruction and pollution. The manufacturing process of steel also generates significant carbon emissions, contributing to climate change. Additionally, the construction phase may involve the use of heavy machinery, which can cause noise and air pollution. However, steel structures have a long lifespan, are highly recyclable, and can reduce the need for resource-intensive construction materials like concrete, thus mitigating some of their environmental impacts.

Q: How are steel high-rise buildings constructed?: Steel high-rise buildings are constructed using a systematic approach that involves several key steps. First, a strong foundation is laid, typically made of concrete, to support the weight of the building. Then, structural steel frames, consisting of beams, columns, and braces, are erected to provide the framework for the building. These steel members are typically bolted or welded together on-site. Next, floors and walls made of steel or other materials are added to complete the structure. Finally, all the necessary mechanical, electrical, and plumbing systems are installed, followed by the exterior cladding and finishing touches.

Q: What is the role of steel in the construction of stadiums and arenas?: Steel plays a crucial role in the construction of stadiums and arenas as it provides the necessary strength, durability, and versatility required for large-scale structures. It is used in the framework, supports, and roofing systems, allowing for spacious and open designs. Additionally, steel's ability to withstand heavy loads and extreme weather conditions makes it an ideal choice for ensuring the safety and longevity of these structures.

Q: How are steel structures designed for progressive collapse resistance?: Steel structures can be designed for progressive collapse resistance by incorporating various strategies and design principles. One of the key approaches is to ensure redundancy in the structural system. This means that there are multiple load paths available to distribute the loads in case of a localized failure or abnormal loading. To achieve redundancy, steel structures can be designed with alternate load paths such as transfer beams or columns, which can redirect the loads to other elements after a failure. This ensures that the structure can still support the applied loads even if a primary element fails. Another important aspect is the use of robust connections. Connections play a crucial role in transferring loads between different structural members. By designing connections that are capable of withstanding high forces and moments, the structure can better resist progressive collapse. Special attention should be given to the connection details at critical locations, such as column-to-beam connections or beam-to-column connections. Furthermore, designing for progressive collapse resistance involves considering the impact of accidental loads, such as explosions or vehicle impacts. These loads can cause localized failures and initiate the collapse of the structure. By incorporating blast-resistant design principles and using materials with high ductility, such as high-strength steels, the structure's ability to withstand such accidental loads can be enhanced. Additionally, the use of advanced analysis techniques, such as nonlinear dynamic analysis, can help evaluate the structural response under progressive collapse scenarios. This enables engineers to identify vulnerable areas and design appropriate measures to prevent or mitigate progressive collapse. Overall, designing steel structures for progressive collapse resistance requires a comprehensive approach that combines redundancy, robust connections, consideration of accidental loads, and advanced analysis techniques. By incorporating these design principles, the risk of progressive collapse can be significantly reduced, enhancing the safety and resilience of the structure.

Q: What is the difference between steel structure HN and HW?: Distinction: H type steel is welded, HM, HN and HW are hot rolledHW is a wide flange of H steel, H steel and the height of the flange width is basically the same, mainly used in steel frame structure of steel column, also known as reinforced steel columns in the steel structure is mainly used for the column.

Q: What are the key considerations in the design of steel structures for residential buildings?: When it comes to designing steel structures for residential buildings, there are several important factors that must be taken into account. These factors include: 1. Structural Integrity: It is crucial to design steel structures that can withstand the various loads and forces they will be subjected to, such as gravity, wind, and seismic forces. The structural design should ensure the stability of the building and its ability to safely support its own weight, as well as any additional loads. 2. Safety: The safety of the occupants is of utmost importance in residential buildings. Therefore, steel structures should be designed in compliance with the necessary safety standards and codes, including fire resistance requirements. It is essential to incorporate fire protection measures into the design, such as the use of fire-rated materials and appropriate fire suppression systems. 3. Durability: Residential buildings are expected to have a long lifespan, so the steel structure should be designed to be durable and resistant to corrosion. This can be achieved through the application of corrosion-resistant coatings and the implementation of proper maintenance practices. 4. Aesthetics: The design of steel structures in residential buildings should also take into consideration the visual appeal of the building. The appearance of the steel elements can be customized to complement the overall architectural design of the building and enhance its aesthetic appeal. 5. Cost-effectiveness: The cost of the steel structure is an important consideration in residential building design. Therefore, the design should aim to optimize the use of steel materials while still meeting the required strength and safety standards. This can help minimize material costs and construction time. 6. Flexibility: Residential buildings often require flexibility in terms of interior layouts and the potential for future modifications. The design of steel structures should allow for easy reconfiguration or expansion without compromising the integrity of the building. 7. Sustainability: With increasing concerns about environmental impact, the design of steel structures for residential buildings should incorporate sustainable practices. This can include the use of recycled steel and the integration of energy-efficient design elements, such as insulation and efficient HVAC systems. In summary, the design of steel structures for residential buildings revolves around ensuring structural integrity, safety, durability, aesthetics, cost-effectiveness, flexibility, and sustainability. By addressing these considerations, designers can create steel structures that meet the functional and aesthetic requirements of residential buildings while ensuring the safety and comfort of their occupants.

Q: How are steel structures designed for resisting progressive collapse?: Steel structures are designed to resist progressive collapse through various measures. One key approach is to ensure redundancy in the structural system, meaning that multiple load paths are available to redistribute forces in case of localized failures. This can be achieved by using robust connections, redundant framing, and load-sharing mechanisms. Additionally, designers consider the potential failure scenarios and incorporate measures like blast-resistant design, enhanced structural robustness, and progressive collapse resistance analysis. These measures collectively help steel structures withstand unexpected events and minimize the risk of progressive collapse.

Q: How are steel structures designed to accommodate accessibility requirements?: Steel structures can be designed to accommodate accessibility requirements through various measures. These include providing ramps, elevators, and lifts to ensure easy access for individuals with mobility challenges. Additionally, wide doorways, spacious corridors, and accessible washrooms are incorporated to meet the needs of people using wheelchairs or other mobility aids. Handrails, tactile indicators, and contrasting colors are also utilized to assist individuals with visual impairments. Overall, steel structures can be designed with careful consideration to ensure that they are inclusive and accessible to all.

Q: What are the considerations for steel structure design in flood-prone areas?: When designing steel structures in flood-prone areas, there are several important considerations that need to be taken into account. These considerations include: 1. Flood depth and velocity: The design should consider the maximum expected flood depth and velocity in the area. This information is crucial in determining the required height and strength of the steel structure to withstand the force of the floodwaters. 2. Foundation design: The foundation of the steel structure needs to be able to resist the buoyancy and hydrostatic pressures exerted by the floodwaters. Special attention should be given to the type of foundation and its depth, considering factors such as soil conditions and the potential for scouring. 3. Material selection: The choice of materials is vital in flood-prone areas. Steel, being a durable and corrosion-resistant material, is often a preferred choice. However, the steel used should have a high resistance to corrosion, such as stainless steel or galvanized steel, to prevent degradation due to prolonged exposure to water. 4. Elevation and floodproofing: The design should incorporate an appropriate elevation to prevent floodwaters from entering the structure. This can be achieved by raising the floor level above the expected flood level or by incorporating flood barriers, flood gates, or other floodproofing measures to protect the structure. 5. Drainage and flood management: Adequate drainage systems should be incorporated into the design to ensure the efficient removal of floodwaters. This may involve the installation of pumps, drainage channels, or other flood management systems to prevent the accumulation of water around the steel structure. 6. Resilience and redundancy: To enhance the resilience of the steel structure, redundant systems and components should be considered. This includes redundant power supplies, emergency backup systems, and redundancies in structural elements to ensure that the structure remains functional during and after a flood event. 7. Local regulations and guidelines: It is crucial to adhere to local regulations and guidelines specific to the flood-prone area. These regulations may include setback requirements, floodplain management guidelines, and building codes that dictate specific design criteria for structures in flood-prone areas. By carefully considering these factors, engineers and designers can develop steel structures that are resilient, durable, and capable of withstanding the challenges posed by flood-prone areas. Additionally, incorporating sustainable and environmentally friendly design principles can help minimize the impact of the structure on the surrounding ecosystem.

Q: Are steel structures resistant to earthquakes?: Indeed, steel structures are widely acknowledged for their ability to withstand earthquakes. The remarkable strength-to-weight ratio and exceptional ductility of steel make it an ideal choice for constructing in regions susceptible to seismic events. The pliability and elasticity of steel enable it to absorb and disperse seismic energy, thereby minimizing the structural impact of ground shaking. Furthermore, steel structures can be tailored and erected to meet precise seismic design standards, guaranteeing their resilience against earthquake forces. Nevertheless, it is crucial to recognize that the degree of earthquake resistance heavily relies on the employed design and construction methods, as well as strict adherence to building codes and regulations.

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